Robotic Vehicles
Components and Architecture
Types and Levels of Control
Aerodynamics & Aircraft Systems
Navigation Sensors and Safety
100

This is the most common type of ground-based robotic vehicle, often used for exploration on challenging terrain.

Unmanned Ground Vehicle (UGV)

100

This is the term for the main body of an aircraft that holds the cargo compartment or payload.

Fuselage

100

This type of robot control requires a human operator to manually control all movements using a joystick or similar device.

Remote Controlled (RC)

100

This aerodynamic force is created by the airfoil and allows an aircraft to rise off the ground.

Lift

100

This navigation technique involves calculating one's current position based on a previously determined position and direction/speed of travel.

Dead Reckoning

200

This type of robotic vehicle is designed to operate on the surface of water and can be unmanned or autonomous.

Autonomous Underwater Vehicle (AUV)


Unmanned Surface Vehicle (USV)


200

Name the three main elements of common robotic vehicle architecture.

1. Mechanical Structure or Frame

2. Electronic Systems and Motive Sources

3. Software program running on computer of microprocessor onboard

200

This level of autonomy means the vehicle is fully automatic and can perform all tasks without human intervention.

LOA 4 and or 5

200

Name the four forces that act on an aircraft during flight.

Weight 

Lift 

Thrust 

Drag

200

This system uses satellites to provide positioning, navigation, and timing services for robotic vehicles.

Global Navigation Satellite System (GNSS)

300

A robot is defined as this type of machine that can operate autonomously or semi-autonomously and is controlled by computer software.

Electro Mechanical Machine

300

This electronic device measures angular accelerations around the pitch, roll, and yaw axes of an aircraft.

Gyroscopes

300

Name the four basic types of robot controls.

1. Remote Control or (Teleoperated)

2. Pre Programmed Control

3. Supervisory Control

4. Autonomous Control

300

This angle, measured between the chord line and the relative airflow, is crucial for controlling lift in a fixed wing aircraft.

Angle of Attack

300

This safety feature uses GPS to create virtual boundaries to restrict or prohibit air vehicle operations in certain areas.

Geofencing

400

Name two environments or industries where robotic vehicles are widely used.

- Transportation

- Earth and Space Exploration

- Surgery 

- Laboratory Research 

- Military Weaponry 

- Mass Production of Consumer and Industrial Goods

400

This type of battery is most commonly used in robotics for its high energy density and rechargeability.

Lithium Polymer (LiPO)

400

This type of control allows the operator to set conditions, and the system will not operate unless those conditions are met.

Automatic Control

400

This term refers to the combined effect of all aerodynamic forces that resist the motion of an aircraft through the air.

Total Drag

400

Name two types of active sensors commonly used for obstacle detection in unmanned vehicles.

RADAR

LiDAR

SONAR

500

This is the main purpose of using robotic vehicles instead of humans for certain jobs.

To perform more jobs economically, more accurately and more reliably than humans, often performing tasks and environments unsuitable for humans. 

500

This device converts rotational energy from an engine into electrical energy in a robotic vehicle.

Alternator

500

This term describes the operator not actively controlling the vehicle but being able to override the autonomous system if needed.

Traded Control

500

This principle states that an increase in the speed of a fluid occurs simultaneously with a decrease in pressure exerted by the fluid.

Bernoulli Principle

500

This five-step process is used by air vehicles to autonomously avoid obstacles in their flight path.

Detection

Analysis

Decision Making

Maneuvering 

Rejoining

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